Milan Toma sitting in front of a computer

Visualizing How Military Blasts Impact Unborn Babies

Kim Campo| July 25, 2023

Pictured: Assistant Professor Milan Toma

A recent study by College of Osteopathic Medicine (NYITCOM) faculty and alumni provides new insight into how military blasts can injure unborn babies (fetuses) and how the amniotic fluid surrounding the fetus may provide protection. The findings, which were published in the journal Injury, could help doctors better assess fetal injuries and inform the development of future safety devices.

Pregnancy-related trauma is one of the leading causes of morbidity and mortality in pregnant women and their unborn babies. Recently, military conflicts in Eastern Europe and the Middle East, where there have been documented cases of airstrikes targeting maternity hospitals, have led scientists and medical professionals to consider how the forces of a military blast could impact unborn children. 

Now, researchers, led by biomedical engineer and NYITCOM Assistant Professor Milan Toma, Ph.D., have used elaborate 3-D models to simulate the impact of an explosion beneath a motor vehicle. The models accounted for real patient-specific geometries and fluid-structure interaction in spaces between the inner lining of the uterus and fetus, placenta, and umbilical cord. 

Computer Simulation Military Blasts and Unborn Babies
Because the fetus was positioned with its head facing down and exposed to a simulated explosion underneath the mother’s womb (a military blast under a car), more stress/strain (shown in red) occurred around the skull.

Their findings showed that amniotic fluid is crucial in protecting the fetus from trauma. While the simulated explosion subjected the outside of the uterus to multiple acceleration changes, the fetus (inside the uterus) experienced lesser acceleration changes. The models also showed that because the fetus was positioned with its head facing down and exposed to an explosion underneath the mother’s womb, the area around the skull sustained more stress.

The study was conducted in collaboration with Jonathan Arias (D.O. ’23) and Gregory Kurgansky (D.O. ’23), former NYITCOM students who have since completed their studies and advanced to residency programs. Other collaborators included Ong Chi Wei, Ph.D., from Singapore’s Institute of High Performance Computing, and Rosalyn Chan-Akeley, M.D., an OB-GYN affiliated with Lang Research Center at New York-Presbyterian Hospital Queens.

More Features

Three students with their professor

Dedicated to the Pursuit of Knowledge

Students and alumni from the College of Arts and Sciences, School of Health Professions, and College of Osteopathic Medicine shared research findings at impressive industry conferences.

Portrait of Hank Foley

Strength in Leadership

As he prepares to step down as president of New York Tech, we look at Henry C. “Hank” Foley’s legacy of growth, community, and innovation.

Group of students with faculty and industry experts

Students Learn About Spectrum Technology From Industry Experts

Industry leaders, faculty, students, and staff from universities across the country gathered on the Long Island campus for Spectrum Sizzle, an undergraduate spectrum workshop funded by the National Science Foundation.

Shane Speights teaching students in a medical simulation lab

NYITCOM-Arkansas Generates $44.6 Million in Economic Impact

In a recent study, NYITCOM-Arkansas’ economic impact supports 263 jobs and operations that result in $2.2 million in additional state and local taxes.

Students with their professor

Cybersecurity Graduate Students Rank 25th in MITRE’s eCTF 2025 Competition

First-time participants, 10 cybersecurity students from the Vancouver campus break into the global top 25 in prestigious Embedded Capture the Flag (eCTF) challenge.

Portrait of Henry Ruiz

Understanding the Cellular Underpinnings of Obesity

In his research, Assistant Professor Henry Ruiz, Ph.D., is looking to understand what makes fat cells grow, which could lead to new and improved obesity treatments.